SSL075-NO88 LUMILEDS | Alldatasheet
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SnapLED 75 and SnapLED 150 Automotive LED Signal Lighting SnapLED 75 SnapLED 150 Flexible LED solutions for Automotive Signal Lighting T echnical Datasheet DS12 Introduction SnapLED 75 and SnapLED 150 are dual-mode binned making it easy to choose the right automotive signal product. Designers and consumers can count on SnapLED for color stability in rear combination lamps, front turn signals, and high mount stop lamp applications. The SnapLED package utilizes Philips Lumileds’ pioneering Solderless Clinch technology, designed specifically to meet the automotive industry’s need for extreme reliability. The Solderless Clinch technology uses a formable metal substrate which offers ease of manufacturing, styling flexibility, and thermal conductivity unmatched by other LED assemblies. The efficient optical design, high-brightness material, and high-current capability reduces the number of LEDs required for lighting functions and lowers the total cost and engineering complexity. SnapLED products meet SAE/ECE/JIS automotive color requirements and are AEC-Q101C qualified. SnapLED emitters are used for:
- Rear Combination Lamps
- Front Turn Signal Lamps
- High Mount Stop Lamps Meets SAE/ECE Automotive Color Requirements
- Mirror Turn
- Rear Fog Lamp
SnapLED 75/150 Datasheet DS12 20121212 2 Table of Contents
SnapLED 75/150 Datasheet DS12 20121212 3 Product Nomenclature The part number designation is explained as follows: SSLABC-DEFG-xxxx Where: SSL - designates the product type ABC - designates the current bin (150 mA or 75 mA) D - designates the package type (N = Narrow or W = Wide) E - designates the color (O = Red-orange, A = Amber) F - indicates the chip information and binning and packaging scheme G - indicates the binning and testing scheme. x - designates the minimum flux and flux bin range xxx - option codes for full standard part number. T est Conditions for Optical Characteristics at Junction T emperature Philips Lumileds tests SnapLED emitters for 20ms integration time at Ta = 25ºC. This datasheet specifies performance at a constant temperature of 25°C, except where noted. Environmental Compliance Philips Lumileds is committed to providing environmentally friendly products to the solid-state lighting market. SnapLED 75 and SnapLED 150 is compliant to the European Union directives on the restriction of hazardous substances in electronic equipment, namely the RoHS directive. Philips Lumileds will not intentionally add the following restricted materials to the SnapLED 75 and SnapLED 150 lead, mercury, cadmium, hexavalent chromium, polybrominated biphenyls (PBB) or polybrominated biphenyl ethers (PBDE). General Information
SnapLED 75/150 Datasheet DS12 20121212 4 Product Selection Guide [1, 2] T able 1. LED Color Part Number Drive Current Viewing Angle 2u 1/2 SnapLed 75 Dual Mode (Degrees) [1] Typ. SSL075-NO88 75 mA - 2.5 mA 45 SSL075-WO88 75 mA - 2.5 mA 85 SSL075-NA88 75 mA - 2.5 mA 45 SSL075-WA88 75 mA - 2.5 mA 85 SnapLed 150 SSL150-NO88 150 mA - 5 mA 45 SSL150-WO88 150 mA - 5 mA 85 SSL150-NA88 150 mA - 5 mA 45 SSL150-WA88 150 mA - 5 mA 85 Notes for Table 1: 1. 2 u1/2 is the off-axis angle at which the luminous intensity is half the axial luminous intensity. 2. Refer to page 21 for Flux bin selection and contact your respective technical service consultant for detail of Flux FV (Lm) supportability. Dual Product Binning Automotive lamp makers can now take advantage of Philips Lumileds flux stability across a wide operating range with SnapLED 75 and SnapLED 150 dual binning. The dual binnned products are designated with an “88” in the part number. SnapLED emitters are optimized and binned for use in dual-mode drive current applications such as automotive stop and tail lights, car and truck marker-turn, and tail-turn applications using low-cost, high-reliability resistor-diode drive circuits. The optimized dual binned emitters offer 100% flux stabilization at temperature, allowing the user to operate the LEDs with flux & color stability over a dynamic range of forward voltages: SnapLED 75 from 75 mA–2.5 mA and SnapLED 150 from 150 mA–5 mA. This industry leading feature enables plug and play, immediate use of the SnapLED products without the need for additional handling, treatment or further characterization. Key features include: - Flexible dual binning scheme - Higher maximum junction temperature of 135ºC - Higher flux at high & low currents - Consistent color at high current - Forward voltage bins with high current spacing of 60mV and with low current spacing of 30mV - 20% flux bins at both high and low current with a guaranteed flux ratio between high and low current. 100% of the SnapLED 75 and SnapLED 150 products have 5 character binning eliminating the need to segregate parts between single and dual mode applications. Dual binning simplifies the production process, and ensures light output and color consistency over a wide operating range. Selection Guide Amber Red-Orange Amber Red-Orange
SnapLED 75/150 Datasheet DS12 20121212 5 Reliability T esting Philips Lumileds conducts extensive reliability stress testing before the introduction of new products to ensure that they meet the reliability expectations of the automotive market. The development of SnapLED includes reliability test simulations for both high voltage (24V) jump start and high voltage (18V) alternator failure conditions to ensure LED survivability, performance and quality integrity as well as design margin allowance. T able 2. SSL150 SSL75 Stress Duration Parameter Pre-test Condition If (mA) I f (mA) Ta (°C) (minute) Current overstress High Voltage (24V) Jump Start Simulation 300 150 55 5 High Voltage (18V) Alternator Failure Simulation 200 100 55 120 Temperature overstress max 185°C (Junction Temperature) Electrostatic Discharge (ESD) T est T able 3. Electrostatic Discharge (ESD) T est T est Conditions Rating Human Body Model 8000 V, 3 positive pulses, 3 negative pulses JEDEC Class 3B (AEC: Class H3A) Machine Model 400 V, 3 positive pulses, 3 negative pulses JEDEC Class B (AEC: Class 3M) Charged Device Model 1000V, 3 positive pulses, 3 negative pulses JEDEC Class III (AEC : Class C4) Maximum Ratings, Tj=25°C T able 4. Parameter Symbol SSL150 Rating SSL075 Rating Units DC Forward Current [1, 2] IF 150 75 mA Pulsed Forward Current IFP 300 150 mA Min DC Forward Current [2] IF 5 2.5 mA Power Dissipation 446 223 mW Ambient Temperature Range Ta -40 to +115 ºC Storage Temperature Range -55 to +110 ºC High Temperature Chamber 125 (2 hrs) 125 (2 hrs) ºC LED Junction Temperature Tj 135 135 ºC Notes for Table 4: 1. Derating is linearly as shown in derating curves. 2. Min and Max currents recommended for continuous DC mode.
SnapLED 75/150 Datasheet DS12 20121212 6 Optical Characteristics, Tj=25°C [5] T able 5. Ratio of Luminous Intensity to Dominant Peak Wavelength Viewing total Flux Wavelength (nm) [2] lpeak T otal included Angle Angle 2u1/2 Part Iv(Cd/Fv (lm) [1] ld (nm) [2] u0.90 V (Degrees) [3] (Degrees) [4] SSL075-NO88 2.0 617 626 70 45 SSL075-WO88 0.6 617 626 120 85 SSL075-NA88 2.0 590 592 70 45 SSL075-WA88 0.6 590 592 120 85 SSL150-NO88 2.0 617 628 70 45 SSL150-WO88 0.6 617 628 120 85 SSL150-NA88 2.0 592 593 70 45 SSL150-WA88 0.6 592 593 120 85 Notes for Table 5: 1. Intensity/Flux at HV axis 2. Dominant wavelength is derived from the CIE 1931 Chromaticity diagram and represents the perceived color. Philips Lumileds maintains a tolerance of ± 0.5 nm for dominant wavelength measurements. 3. u0.90 V is the included angle at which 90% of the total luminous flux is captured. 4. 2 u1/2 is the off-axis angle at which the luminous intensity is half the axial luminous intensity. Electrical Characteristics, Tj = 25ºC T able 6. Parameter Symbol SSL150 Rating SSL075 Rating Units Forward Voltage VF (V) VF 2.8 2.8 V (Typ) Reverse Voltage (IR = 100 µA) VR 10 10 V Capacitance VF=0, f=1MHz C 50 25 pF(Typ) Thermal Resistance RuJ-PIN 60 75 ºC/W Speed of Response Time ts 20 20 ns Constant, e-t/t s Optical & Electrical Characteristics
Figure 1. Package outline drawing.
- Dimensions are in millimeters.
- Dimensions without tolerances are nominal.
- Clinch joint locations shown in dashed lines on top view of the emitter (11.50 mm spacing).
SnapLED 75 and SnapLED 150 Red-Orange and Amber Luminous Flux vs. Figure 6. SnapLED luminous flux vs. junction temperature.
100 C/W
200 C/W
300 C/W
400 C/W
500 C/W
600 C/W
Figure 11. Current derating curve for SnapLED 75 mA drive current.New Cur Der Curve 150.xls
75 C/W
150 C/W
250 C/W
Figure 12. Current derating curve for SnapLED 150 mA drive current.
Figure 15. Relative intensity vs. wavelength.
SnapLED 75/150 Datasheet DS12 20121212 15 Bin and Option Code Specifications This section provides bin selection assistance for SnapLED LEDs. Product availability varies by color and other factors, and not all bin selection combinations are available. Contact your Philips Lumileds representative for further assistance. Product availability varies by color and other factors, and not all bin selection combinations are available. T able 7. Min Flux Bin @ High Current High Flux Bin Minimum Flux (lm) Maximum Flux (lm) Low Flux Bin SnapLED 150 (SSL150-xO88) G 10.4 12.5 F, G, H H 12.5 15.0 G, H, J J 15.0 18.0 H, J, M M 18.0 21.0 J, M, N N 21.0 25.0 M, N, P P 25.0 30.0 N, P , R R 30.0 36.0 P , R, U SnapLED 150 (SSL150-xA88) E 7.3 8.7 C, D, E, F, G F 8.7 10.4 D, E, F, G, H G 10.4 12.5 E, F, G, H, J H 12.5 15.0 F, G, H, J, M J 15.0 18.0 G, H, J, M, N M 18.0 21.0 H, J, M, N, P N 21.0 25.0 J, M, N, P , R SnapLED 75 (SSL075-xO88) D 6.1 7.3 C, D, E E 7.3 8.7 D, E, F F 8.7 10.4 E, F, G G 10.4 12.5 F, G, H H 12.5 15.0 G, H, J J 15.0 18.0 H, J, M M 18.0 21.0 J, M, N SnapLED 75 (SSL075-xA88) B 4.3 5.1 A, B, C, D C 5.1 6.1 A, B, C, D, E D 6.1 7.3 B, C, D, E, F E 7.3 8.7 C, D, E, F, G F 8.7 10.4 D, E, F, G, H G 10.4 12.5 E, F, G, H, J H 12.5 15.0 F, G, H, J, M Note for Table 7: - Refer to low current luminous flux bin table for low current bin information.
SnapLED 75/150 Datasheet DS12 20121212 16 Low Current Luminous Flux Bin Definitions T able 8. Low Current Luminous Flux Binning Applicable Min Luminous Flux Max Luminous Flux Color Product Bin Code (lm) (lm) F 0.29 0.35 G 0.35 0.42 H 0.42 0.50 J 0.50 0.60 Red-Orange SSL150-xO88 M 0.60 0.72 N 0.72 0.86 P 0.86 1.02 R 1.02 1.22 U 1.22 1.46 C 0.17 0.20 D 0.20 0.24 E 0.24 0.29 F 0.29 0.35 G 0.35 0.42 Amber SSL150-xA88 H 0.42 0.50 J 0.50 0.60 M 0.60 0.72 N 0.72 0.86 P 0.86 1.02 R 1.02 1.22 C 0.17 0.20 D 0.20 0.24 E 0.24 0.29 F 0.29 0.35 Red-Orange SSL075-xO88 G 0.35 0.42 H 0.42 0.50 J 0.50 0.60 M 0.60 0.72 N 0.72 0.86 A 0.12 0.14 B 0.14 0.17 C 0.17 0.20 D 0.20 0.24 E 0.24 0.29 Amber SSL075-xA88 F 0.29 0.35 G 0.35 0.42 H 0.42 0.50 J 0.50 0.60 M 0.60 0.72 Red-Orange Amber Red-Orange Amber
SnapLED 75/150 Datasheet DS12 20121212 17 Bin Range Option Codes Product availability varies by color and other factors and not all bin selection combinations are available. T able 9. High Current Flux Bin Codes Bin Range Option Codes Bin Range
0 All bin above the Minimum
Notes: - Option codes indicate the inclusive range of flux bins allowed above the indicated requested bin. Color Bin Definition and Wavelength T able 10. Color Color Code Min (nm) Max (nm) 1 588 590 2 590 594 3 613 618 4 618 623 5 623 628 Note for Table 10: - T ester error for wavelength maintained at ±1nm. Red-Orange Amber
SnapLED 75/150 Datasheet DS12 20121212 18 T able 11. VF Definition High Current VF Binning (150 mA / 75 mA) Color VF Label Min VF Max VF Amber 1 2.37 2.43 Red-Orange 2 2.43 2.49 Red-Orange 3 2.49 2.55 Red-Orange 4 2.55 2.61 Red-Orange 5 2.61 2.67 Red-Orange 6 2.67 2.73 Red-Orange 7 2.73 2.79 Red-Orange 8 2.79 2.85 Red-Orange 9 2.85 2.91 Amber A 2.91 2.97 Low Current VF Binning (5 mA - 2.5 mA) Red-Orange and Amber 1 1.78 1.81 Red-Orange and Amber 2 1.81 1.84 Red-Orange and Amber 3 1.84 1.87 Red-Orange and Amber 4 1.87 1.90 Red-Orange and Amber 5 1.90 1.93 Red-Orange and Amber 6 1.93 1.96 Red-Orange and Amber 7 1.96 1.99 Amber 8 1.99 2.02 T able 12. VF Definitions High Current VF Binning (150 mA / 75 mA) Low Current VF Binning (5 mA - 2.5 mA) Color High VF Low VF Red-Orange 2 1 Red-Orange 3 1, 2 Red-Orange 4 1, 2, 3 Red-Orange 5 1, 2, 3, 4 Red-Orange 6 1, 2, 3, 4, 5 Red-Orange 7 1, 2, 3, 4, 5, 6 Red-Orange 8 2, 3, 4, 5, 6, 7 Red-Orange 9 3, 4, 5, 6, 7 Notes: - V f Pairing Definition applicable to red-orange only. - All measurements done with 20ms integration time at Ta = 25ºC. - T ester Error maintained at 3sigma = ±10%. (Applies to lumin only). - T ester Error maintained at 3sigma = +/-0.06V (Applies to forward voltage only). - T ester Error maintained at 3sigma = ±1nm (Applies to wavelength only).
©2012 Philips Lumileds Lighting Company. All rights reserved. Product specifications are subject to change without notice. LUXEON is a registered trademark of the Philips Lumileds Lighting Company in the United States and other countries. Philips Lumileds is a leading provider of LEDs for everyday lighting applications. The company’s records for light output, efficacy and thermal management are direct results of the ongoing commitment to advancing solid-state lighting technology and enabling lighting solutions that are more environmentally friendly, help reduce CO2 emissions and reduce the need for power plant expansion. Philips Lumileds LUXEON® LEDs are enabling never before possible applications in outdoor lighting, shop lighting, home lighting, consumer electronics, and automotive lighting. Philips Lumileds is a fully integrated supplier, producing core LED material in all three base colors, (Red, Green, Blue) and white. Philips Lumileds has R&D centers in San Jose, California and in the Netherlands, and production capabilities in San Jose, Singapore and Penang, Malaysia. Founded in 1999, Philips Lumileds is the high flux LED technology leader and is dedicated to bridging the gap between solid-state technology and the lighting world. More information about the company’s LUXEON LED products and solid-state lighting technologies can be found at www.philipslumileds.com. www.philipslumileds.com www.philipslumileds.cn.com